贸易空间分析与探索的综合贸易空间模型

C. Turner, N. Masoudi, Hannah Stewart, Julia Daniels, D. Gorsich, Denise M. Rizzo, G. Hartman, R. Agusti, Annette Skowronska, M. Castanier, S. H. Rapp
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引用次数: 0

摘要

利用贸易空间分析和探索来构建设计问题。通过对可用技术进行评估,可以对由技术组合(例如从形态学矩阵)定义的系统的性能进行预测。基于这些评估,可以在功能性能目标(通常简称为功能目标或FOs)之间进行权衡。这些性能权衡或交易的结果可以用来定义问题的目标设计空间。然后,可以用确定贸易空间可行性和设计问题的标准来确定设计空间的特征。然而,为贸易空间开发形态矩阵的成本可能令人望而却步。美国陆军DEVCOM地面车辆系统中心(GVSC)的贸易空间由多名工作人员和技术专家花费了2年多的时间来开发,并允许考虑超过1021辆车辆。为了开发增强的贸易空间分析和探索方法,以增强规划决策,有必要基于“合成数据”的模拟贸易空间。对于克莱姆森大学地面系统虚拟样机(VIPR-GS)中的贸易空间研究,有必要开发一个综合贸易空间模型,作为评估贸易空间分析、探索和决策方法改进方法的基础。在这项工作中,我们描述了开发贸易空间模型的最新技术,功能目标的公式和定义的模型,以表示不同的综合变量类型,从而以更少的努力产生综合贸易空间。使用这种方法,我们展示了在VIPR中心开发的小型半自动地面车辆合成交易空间的开发示例,该示例可用于评估克莱姆森深橙色项目车辆和GVSC的车辆设计。最后,我们将探讨如何利用这一贸易空间模型来促进未来围绕贸易空间的决策。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Synthetic Tradespace Model for Tradespace Analysis and Exploration
Tradespace analysis and exploration is used to frame a design problem. By taking stock of available technologies, predictions of the performance of a system defined from a combinatorial combination of technologies (from say a morphological matrix) can be made. Based on these assessments, tradeoffs between functional performance objectives (often termed simply Functional Objectives or FOs) can be made. The result of these performance tradeoffs or Trades, can then be used to define a target design space for a problem. That design space can then be characterized with criteria to determine the viability of the tradespace and the design problem. However, the cost to develop the morphological matrix for the tradespace can be prohibitive. The tradespace at the US Army DEVCOM Ground Vehicle Systems Center (GVSC) took more than 2 years of effort by multiple staff and technical experts to develop and allows for the consideration of more than 1021 vehicles. To develop enhanced approaches to tradespace analysis and exploration to enhance programmatic decision-making, a simulated tradespace based on “synthetic data” is necessary. For tradespace studies within the Clemson University Virtual Prototyping of Ground Systems (VIPR-GS) it was necessary to develop a synthetic tradespace model to serve as a basis for evaluating improved approaches to tradespace analysis, exploration and decision-making methods. Within this work, we describe the state-of-the-art for developing models of the tradespace, formulations of functional objectives and defined models to represent different synthetic variable types to produce a synthetic tradespace with far less effort. Using this approach, we demonstrate the development of an example of a synthetic tradespace for small semi-autonomous ground vehicles developed within the VIPR Center that can be used to evaluate vehicle designs for the Clemson Deep Orange Project Vehicle and at GVSC. Finally, we will explore how this tradespace model can be used to facilitate decision-making surrounding the tradespace in the future.
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